Intraplanar percolation and interplanar bridge enables layered matrix for high-performance negative electrode

The rapid advancement of modern technologies has increasingly heightened the demand for rechargeable batteries that exhibit higher energy density, faster charging capabilities, and longer cycle life. However, current battery materials are unable to meet these requirements due to their inherent structural limitations. Therefore, it is essential to design a multifunctional battery material structure, including ample Li<sup>+</sup> storage, rapid Li<sup>+</sup> diffusion, and enhanced structural stability. Here we show a layered structure featuring interplanar bridges and intraplanar percolation that integrates the advantages of currently commercialized mainstream battery material structures. It enables efficient ion transport and structural stability, delivering high capacity/rate capability, long cycle life, and nearly zero-strain structural evolution over a wide temperature range. The versatility of such structural design principle is further confirmed by other materials, and this general principle of discovering and designing advanced battery materials should accelerate the development of next-generation rechargeable batteries.

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Publication Details

Journal
Nature Communications
Published
2026-02-10
DOI
https://doi.org/10.1038/s41467-026-69387-z
Primary Topic
Advanced Battery Materials and Technologies
Type
article
Field-Weighted Citation Impact
0.00

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article

Intraplanar percolation and interplanar bridge enables layered matrix for high-performance negative electrode

Xinyu Zhu, Yan Su, Wengang Yan, Chen Lai et al.
Nature Communications
Advanced Battery Materials and Technologies
article

Intraplanar percolation and interplanar bridge enables layered matrix for high-performance negative electrode

Xinyu Zhu, Yan Su, Wengang Yan, Chen Lai, Shaobo Wu, Yizhi Zhai, Wang Hay Kan, Yibiao Guan, Xinge Sun, Feng Wu, Tao Liu, Meng Wang, Qing Huang, Ning Li, Yu Dong, Siyuan Ma
article en

Abstract

The rapid advancement of modern technologies has increasingly heightened the demand for rechargeable batteries that exhibit higher energy density, faster charging capabilities, and longer cycle life. However, current battery materials are unable to meet these requirements due to their inherent structural limitations. Therefore, it is essential to design a multifunctional battery material structure, including ample Li<sup>+</sup> storage, rapid Li<sup>+</sup> diffusion, and enhanced structural stability. Here we show a layered structure featuring interplanar bridges and intraplanar percolation that integrates the advantages of currently commercialized mainstream battery material structures. It enables efficient ion transport and structural stability, delivering high capacity/rate capability, long cycle life, and nearly zero-strain structural evolution over a wide temperature range. The versatility of such structural design principle is further confirmed by other materials, and this general principle of discovering and designing advanced battery materials should accelerate the development of next-generation rechargeable batteries.

Nature CommunicationsVol. 17(1)
Beijing Institute of Technology (CN), North China Electric Power University (CN), China Spallation Neutron Source (CN), Zhuhai Institute of Advanced Technology (CN), Chongqing University of Technology (CN), University of Science and Technology Beijing (CN)
Salt Science Research Foundation, National Natural Science Foundation of China, Beijing Nova Program, Beijing Synchrotron Radiation Facility
Affordable and clean energy
Openalex Percentile: Top 61%
Advanced Battery Materials and Technologies
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